会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Bonded semiconductor substrate manufacturing method thereof
    • 其半导体衬底的制造方法
    • US07491342B2
    • 2009-02-17
    • US10550761
    • 2004-04-02
    • Eiji KamiyamaTakeo KatohJea Gun Park
    • Eiji KamiyamaTakeo KatohJea Gun Park
    • B44C1/22C03C15/00C03C25/68H01L21/30H01L21/46
    • H01L21/30608H01L21/76254
    • The present invention provides a bonded substrate fabricated to have its final active layer thickness of 200 nm or lower by performing the etching by only 1 nm to 1 μm with a solution having an etching effect on a surface of an active layer of a bonded substrate which has been prepared by bonding two substrates after one of them having been ion-implanted and then cleaving off a portion thereof by heat treatment. SC-1 solution is used for performing the etching. A polishing, a hydrogen annealing and a sacrificial oxidation may be respectively applied to the active layer before and/or after the etching. The film thickness of this active layer can be made uniform over the entire surface area and the surface roughness of the active layer can be reduced as well.
    • 本发明提供了一种键合衬底,其通过用键合衬底的有源层的表面上具有蚀刻效果的溶液进行仅1nm至1μm的蚀刻而使其最终有源层厚度为200nm以下的结合衬底, 已经通过在其中一个被离子注入之后将两个基板接合,然后通过热处理来分离其一部分来制备。 SC-1溶液用于进行蚀刻。 在蚀刻之前和/或之后,可以在有源层上分别施加抛光,氢退火和牺牲氧化。 该有源层的膜厚度可以在整个表面积上均匀,并且活性层的表面粗糙度也可以降低。
    • 2. 发明申请
    • Laminated semiconductor substrate process for producing the same
    • 用于制造其的层叠半导体衬底工艺
    • US20060118935A1
    • 2006-06-08
    • US10550761
    • 2004-04-02
    • Eiji KamiyamaTakeo KatohJea Park
    • Eiji KamiyamaTakeo KatohJea Park
    • H01L21/30H01L23/06
    • H01L21/30608H01L21/76254
    • The present invention provides a bonded substrate fabricated to have its final active layer thickness of 200 nm or lower by performing the etching by only 1 nm to 1 μm with a solution having an etching effect on a surface of an active layer of a bonded substrate which has been prepared by bonding two substrates after one of them having been ion-implanted and then cleaving off a portion thereof by heat treatment. SC-1 solution is used for performing the etching. A polishing, a hydrogen annealing and a sacrificial oxidation may be respectively applied to the active layer before and/or after the etching. The film thickness of this active layer can be made uniform over the entire surface area and the surface roughness of the active layer can be reduced as well.
    • 本发明提供了一种键合衬底,其通过用键合衬底的有源层的表面上具有蚀刻效果的溶液进行仅1nm至1μm的蚀刻而使其最终有源层厚度为200nm以下的结合衬底, 已经通过在其中一个被离子注入之后将两个基板接合,然后通过热处理来分离其一部分来制备。 SC-1溶液用于进行蚀刻。 在蚀刻之前和/或之后,可以在有源层上分别施加抛光,氢退火和牺牲氧化。 该有源层的膜厚度可以在整个表面积上均匀,并且活性层的表面粗糙度也可以降低。
    • 3. 发明授权
    • Method for judging whether semiconductor wafer is non-defective wafer by using laser scattering method
    • 通过使用激光散射法判断半导体晶片是否为缺陷晶片的方法
    • US08379196B2
    • 2013-02-19
    • US12792148
    • 2010-06-02
    • Eiji KamiyamaTakashi NakayamaTakeo Katoh
    • Eiji KamiyamaTakashi NakayamaTakeo Katoh
    • G01N21/00
    • G01N21/9501
    • A semiconductor wafer whose number of LPDs per wafer is equal to or smaller than a predetermined number is sorted out, and a judgment as to whether a semiconductor wafer is a non-defective wafer is made visually based on a haze map of the semiconductor wafer subjected to the sorting. Moreover, a semiconductor wafer whose number of LPDs per wafer is equal to or smaller than a predetermined number is sorted out. Then, from the semiconductor wafers subjected to the sorting, a semiconductor wafer whose in-plane standard deviation and in-plane average value of the haze signals in a wafer plane have a specific relationship is sorted out, and this semiconductor wafer is judged to be a non-defective wafer. In this way, a method for judging whether a semiconductor wafer is a non-defective wafer or a defective wafer, the method that can make a judgment more uniform and accurate without dependence on the difference in the S/N ratio between inspection apparatuses using a laser scattering method, is provided.
    • 对每个晶片的LPD的数量等于或小于预定数量的半导体晶片进行整理,并且根据半导体晶片的雾度图来视觉地判断半导体晶片是否为非缺陷晶片 到排序。 此外,整理出每个晶片的LPD的数量等于或小于预定数量的半导体晶片。 然后,从进行分选的半导体晶片中,将晶片面内的雾度信号的面内标准偏差和面内平均值具有特定关系的半导体晶片整理出来,将该半导体晶片判定为 无缺陷晶片。 以这种方式,用于判断半导体晶片是否为缺陷晶片或缺陷晶片的方法,可以使得判断更均匀和准确而不依赖于使用a的检查装置之间的S / N比的差异的方法 提供激光散射法。
    • 4. 发明申请
    • METHOD FOR JUDGING WHETHER SEMICONDUCTOR WAFER IS NON-DEFECTIVE WAFER BY USING LASER SCATTERING METHOD
    • 通过使用激光散射方法判断半导体波形是非缺陷波形的方法
    • US20100309461A1
    • 2010-12-09
    • US12792148
    • 2010-06-02
    • Eiji KamiyamaTakashi NakayamaTakeo Katoh
    • Eiji KamiyamaTakashi NakayamaTakeo Katoh
    • G01N21/00
    • G01N21/9501
    • A semiconductor wafer whose number of LPDs per wafer is equal to or smaller than a predetermined number is sorted out, and a judgment as to whether a semiconductor wafer is a non-defective wafer is made visually based on a haze map of the semiconductor wafer subjected to the sorting. Moreover, a semiconductor wafer whose number of LPDs per wafer is equal to or smaller than a predetermined number is sorted out. Then, from the semiconductor wafers subjected to the sorting, a semiconductor wafer whose in-plane standard deviation and in-plane average value of the haze signals in a wafer plane have a specific relationship is sorted out, and this semiconductor wafer is judged to be a non-defective wafer. In this way, a method for judging whether a semiconductor wafer is a non-defective wafer or a defective wafer, the method that can make a judgment more uniform and accurate without dependence on the difference in the S/N ratio between inspection apparatuses using a laser scattering method, is provided.
    • 对每个晶片的LPD的数量等于或小于预定数量的半导体晶片进行整理,并且根据半导体晶片的雾度图来视觉地判断半导体晶片是否为非缺陷晶片 到排序。 此外,整理出每个晶片的LPD的数量等于或小于预定数量的半导体晶片。 然后,从进行分选的半导体晶片中,将晶片面内的雾度信号的面内标准偏差和面内平均值具有特定关系的半导体晶片整理出来,将该半导体晶片判定为 无缺陷晶片。 以这种方式,用于判断半导体晶片是否为缺陷晶片或缺陷晶片的方法,可以使得判断更均匀和准确而不依赖于使用a的检查装置之间的S / N比的差异的方法 提供激光散射法。
    • 6. 发明申请
    • IMAGE DATA PROCESSING METHOD AND IMAGE CREATING METHOD
    • 图像数据处理方法和图像创建方法
    • US20110194753A1
    • 2011-08-11
    • US13022062
    • 2011-02-07
    • Eiji KamiyamaShin Uchino
    • Eiji KamiyamaShin Uchino
    • G06K9/00
    • G06T5/002G01N21/8851G01N21/9501G01N2021/8864G06T2207/10004G06T2207/30148
    • [Problem] Provided is a method of processing image data capable of, at the time of measuring a wafer in a circumferential direction thereof using a surface inspection device employing a laser scattering method to create a Haze map, reducing or removing occurrence of a noise resulting from change in detection sensitivity of the device. Further, provided is a method of creating an image by using the method of processing an image data.[Solving Means] There is provided a method of processing image data, including the steps of: measuring a haze value corresponding to each position on a wafer surface by using a wafer surface inspection device; and, subjecting image data formed by the haze value corresponding to each position on the wafer surface to an image data process along a direction in which the haze value is measured, to remove a noise component. Further, there is provided a method of creating an image, in which a Haze map after the image data process is created using the image data processed through the method of processing the image data.
    • [问题]提供一种处理图像数据的方法,该图像数据能够使用采用激光散射法的表面检查装置在圆周方向上测量晶片以产生雾度图,从而减少或消除所产生的噪声的发生 从设备的检测灵敏度的变化。 此外,提供了通过使用处理图像数据的方法来创建图像的方法。 提供一种处理图像数据的方法,包括以下步骤:通过使用晶片表面检查装置测量与晶片表面上的每个位置相对应的雾度值; 并且将对应于晶片表面上的每个位置的雾度值形成的图像数据沿着测量雾度值的方向进行图像数据处理,以消除噪声分量。 此外,提供了一种创建图像的方法,其中使用通过处理图像数据的方法处理的图像数据来创建图像数据处理之后的雾度图。
    • 8. 发明申请
    • SILICON WAFER FOR MANUFACTURING SOI WAFER, SOI WAFER, AND METHOD FOR MANUFACTURING SOI WAFER
    • 用于制造SOI波形的硅波形,SOI波形和制造SOI波形的方法
    • US20080213989A1
    • 2008-09-04
    • US12118928
    • 2008-05-12
    • Eiji KamiyamaSeiichi NakamuraTetsuya Nakai
    • Eiji KamiyamaSeiichi NakamuraTetsuya Nakai
    • H01L21/425
    • H01L21/76243Y10S438/978
    • A silicon wafer includes a principal face for forming electronic devices; an end region; and a tapered region which is located between the principal face and the end region, in which the thickness of the silicon wafer is gradually reduced, and which has a slope that makes an angle of greater than zero degree and less than 9.5 degrees or an angle of greater than 19 degrees with the principal face. An SOI wafer prepared by forming a buried oxide layer in a silicon wafer includes a principal face, end region, and tapered region that are substantially the same as those described above. A method for manufacturing an SOI wafer includes the steps of implanting oxygen ions into a silicon wafer; and heat-treating the resulting silicon wafer such that a buried oxide layer is formed in the silicon wafer.
    • 硅晶片包括用于形成电子器件的主面; 末端区域 以及位于主面和端部区域之间的锥形区域,其中硅晶片的厚度逐渐减小,并且具有大于零度且小于9.5度的角度的倾斜度或角度 与主面大于19度。 通过在硅晶片中形成掩埋氧化物层制备的SOI晶片包括与上述基本相同的主面,端部区域和锥形区域。 一种制造SOI晶片的方法包括将氧离子注入到硅晶片中的步骤; 并对所得到的硅晶片进行热处理,使得在硅晶片中形成掩埋氧化物层。
    • 9. 发明申请
    • SOI substrate, silicon substrate therefor and it's manufacturing method
    • SOI衬底,硅衬底及其制造方法
    • US20070228522A1
    • 2007-10-04
    • US11331216
    • 2006-01-13
    • Eiji Kamiyama
    • Eiji Kamiyama
    • H01L21/425
    • H01L21/76243
    • A silicon wafer includes a principal face for forming electronic devices; an end region; and a tapered region which is located between the principal face and the end region, in which the thickness of the silicon wafer is gradually reduced, and which has a slope that makes an angle of greater than zero degree and less than 9.5 degrees or an angle of greater than 19 degrees with the principal face. An SOI wafer prepared by forming a buried oxide layer in a silicon wafer includes a principal face, end region, and tapered region that are substantially the same as those described above. A method for manufacturing an SOI wafer includes the steps of implanting oxygen ions into a silicon wafer; and heat-treating the resulting silicon wafer such that a buried oxide layer is formed in the silicon wafer.
    • 硅晶片包括用于形成电子器件的主面; 末端区域 以及位于主面和端部区域之间的锥形区域,其中硅晶片的厚度逐渐减小,并且具有大于零度且小于9.5度的角度的倾斜度或角度 与主面大于19度。 通过在硅晶片中形成掩埋氧化物层制备的SOI晶片包括与上述基本相同的主面,端部区域和锥形区域。 一种制造SOI晶片的方法包括将氧离子注入到硅晶片中的步骤; 并对所得到的硅晶片进行热处理,使得在硅晶片中形成掩埋氧化物层。